Stress intensity factors of a crack in a composedcircular cylinder
β Scribed by Xiangzhou Zhang; Norio Hasebe
- Publisher
- Elsevier Science
- Year
- 1999
- Tongue
- English
- Weight
- 437 KB
- Volume
- 36
- Category
- Article
- ISSN
- 0020-7683
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β¦ Synopsis
A composed circular cylinder\ formed by a core circular cylinder\ containing a crack and enclosed by a layered hollow circular cylinder\ is investigated in regard to the evaluation of stress intensity factors[ Analytic solutions to the problem are provided\ with which the upper and lower bounds of stress intensity factors in a cracked circular cylinder\ the stress distribution in a layered hollow circular cylinder\ and the stress intensity factors for a crack in the composed circular cylinder can precisely be determined[ Numerical materials\ demonstrating the discrete values of the stress intensity factors\ as well as the general pattern according to which the stress intensity factors vary with the material and geometric constants\ are presented[ The solutions are developed based on a simpli_ed and modi_ed solution to the Hilbert problem\ and the matrix presentation and manipulation of functions and variables\ used in the circuit theory[ Γ 0888 Elsevier Science Ltd[ All rights reserved[ Corresponding author\ c:o Prof[ N[ Hasebe
π SIMILAR VOLUMES
This paper considers the plane elastic problem corresponding to single or multiple radial cracks emanating from the internal boundary of a circular ring, under uniform external tension and internal pressure. The stress intensity factors are calculated by using the dual boundary element method with t
The elasticity problem of a circular cylinder having a pair of radial cracks subject to mode I loading is studied in this article. Stress intensity factors of the cracked cylinder under mode I loading are systematically and effectively evaluated with use of an equivalent procedure established in thi
Stress intensity factors for a long cylindrical crack in a long cylinder have been calculated using the energy release rate approach. The investigated loading cases include centrifugal forces (Mode I), radial surface forces (Mode I), forces parallel to the axis (Mode II), and twisting moments (Mode